Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A method for dynamically integrating disparate computer-aided dispatch systems over a global computer network, the method comprising: providing a common exchange information hub; communicatively connecting (i) a first computer-aided dispatch system comprising a first data element and (ii) a second computer-aided dispatch system comprising a second data element to the hub through the global computer network; receiving the first data element and the second data element at the hub; identifying a common data element of the first data element and the second data element, wherein the common data element represents a shared data aspect between the first data element and the second data element; mapping the first data element to the common data element; mapping the second data element to the common data element; maintaining the mapping of the first data element to the common data element at the hub; maintaining the mapping of the second data element to the common data element at the hub; and enabling communication between the first and second computer-aided dispatch systems through the hub by transforming first information from the first computer-aided dispatch system having a first definition into second information understood at the second computer-aided dispatch system as having a second definition by: using the mapping of the first data element to the common data element and the mapping of the second data element to the common data element to: transform at the hub the first information to the second information when communicating from the first computer-aided dispatch system to the second computer-aided dispatch system through the hub; and transform at the hub the second information to the first information when communicating from the second computer-aided dispatch system to the first computer-aided dispatch system through the hub.
Computer-aided dispatch (CAD) systems are used to manage emergency response operations, but integrating disparate CAD systems is challenging due to differences in data formats and definitions. This invention provides a method for dynamically integrating multiple CAD systems over a global computer network. A common exchange information hub serves as an intermediary, connecting at least two CAD systems that each contain different data elements. The hub receives data elements from each CAD system and identifies shared data aspects between them, creating a common data element. The hub then maps each CAD system's data elements to this common data element, maintaining these mappings for ongoing use. When information is exchanged between the CAD systems, the hub transforms the data from one system's format to the other's using the established mappings. For example, if the first CAD system sends information with a first definition, the hub converts it into a second definition compatible with the second CAD system, and vice versa. This transformation ensures seamless communication between systems with different data structures, enabling real-time data sharing and coordination across disparate CAD systems. The solution improves interoperability without requiring modifications to the existing CAD systems.
2. The method of claim 1 , wherein the hub comprises multiple master nodes that comprise peer members of an indexing network, and wherein the master nodes comprise clones of each other such that when one master node is made aware of a piece of data that master node replicates such piece of data to such mater nodes peer master nodes.
A distributed indexing system addresses the challenge of efficiently managing and retrieving data across a decentralized network. The system includes a hub with multiple master nodes that form an indexing network, where each master node operates as a peer within the network. These master nodes are clones of each other, ensuring redundancy and consistency. When a master node becomes aware of a new piece of data, it replicates that data to all other peer master nodes in the network. This replication ensures that the data is distributed across the network, improving fault tolerance and availability. The system may also include a client node that interacts with the hub to request data, and the hub processes these requests by querying the master nodes. The replication mechanism ensures that data is synchronized across all master nodes, allowing any master node to respond to a query with the latest available data. This approach enhances reliability and scalability in distributed indexing environments.
3. The method of claim wherein 2 , wherein the master nodes provide an interface to lookup a location of a known data records matching an input indexable criterion.
A system and method for distributed data storage and retrieval involves a network of master nodes and worker nodes. The master nodes manage metadata and coordinate operations across the worker nodes, which store and retrieve data records. The system enables efficient data lookup by allowing users to query a master node with an indexable criterion, such as a key or search term, to locate the physical or logical location of matching data records. The master nodes maintain an index or directory that maps indexable criteria to the locations of relevant data records, which may be distributed across multiple worker nodes. This approach improves scalability and fault tolerance by decentralizing data storage while maintaining centralized control over metadata and query routing. The system is particularly useful in large-scale distributed databases, cloud storage, or peer-to-peer networks where fast and reliable data retrieval is critical. The method ensures that queries are efficiently routed to the correct worker nodes, reducing latency and improving performance. The master nodes may also handle load balancing, replication, and consistency checks to maintain system reliability.
4. The method of claim 1 , further comprising: updating the second information from the second computer-aided dispatch system; transforming at the hub, the updated second information into updated information that is configured to be understood at the first computer-aided dispatch system; and sending the updated information that is configured to be understood at the first computer-aided dispatch system to the first computer-aided dispatch system.
This invention relates to a system for interoperability between different computer-aided dispatch (CAD) systems used in emergency response or public safety operations. The problem addressed is the lack of compatibility between CAD systems from different vendors or jurisdictions, which prevents seamless information sharing during critical incidents. The solution involves a hub that acts as an intermediary, translating and routing data between incompatible CAD systems to ensure real-time coordination. The system includes a hub that receives first information from a first CAD system and transforms it into a format compatible with a second CAD system. The transformed information is then sent to the second CAD system, enabling both systems to exchange data despite differences in protocols or data structures. Additionally, the hub periodically updates information from the second CAD system, transforms the updated data into a format compatible with the first CAD system, and sends it back. This bidirectional communication ensures that both CAD systems maintain synchronized and actionable data, improving response efficiency during multi-agency operations. The hub may also handle data validation, conflict resolution, and prioritization to ensure accurate and timely information exchange.
5. The method of claim 1 , wherein the first data element is different than the second data element.
A system and method for processing data elements in a computing environment addresses the challenge of efficiently managing and comparing distinct data elements to ensure accurate data handling and analysis. The method involves receiving a first data element and a second data element, where the first data element is different from the second data element. The system processes these data elements to perform operations such as comparison, transformation, or validation, ensuring that the distinct nature of the data elements is preserved throughout the process. This differentiation is critical for applications requiring precise data matching, error detection, or conditional logic based on data variations. The method may include steps such as extracting features from the data elements, applying algorithms to analyze their differences, and generating outputs based on the comparison results. The system ensures robustness by handling various data types, including numerical, textual, or structured data, and may integrate with databases, APIs, or other data sources to retrieve and process the elements. The solution is particularly useful in fields like data validation, cybersecurity, and automated decision-making, where distinguishing between different data elements is essential for accurate and reliable outcomes.
6. The method of claim 1 , further comprising: updating the second information from the second computer-aided dispatch system; referencing at the hub the mapping of the first data element to the common data element and a mapping of the updated second information to determine whether the mapping of the updated second information comprises the common data element, and not providing the updated second information to the first computer-aided dispatch where the mapping of the updated second information comprises the common data element.
This invention relates to a system for integrating and managing data between multiple computer-aided dispatch (CAD) systems. The problem addressed is the inconsistency and redundancy in data sharing between different CAD systems, which can lead to inefficiencies and errors in emergency response coordination. The system includes a hub that facilitates communication between a first CAD system and a second CAD system. The hub stores mappings that link data elements from the first CAD system to common data elements, and similarly maps data elements from the second CAD system to the same common data elements. This ensures that when information is exchanged between the systems, it is standardized and avoids duplication. When the second CAD system updates its information, the hub checks whether the updated data maps to a common data element already present in the first CAD system. If it does, the hub prevents the updated information from being sent to the first CAD system, thereby avoiding redundant data transmission. This selective updating mechanism ensures that only relevant and non-redundant information is shared, improving efficiency and reducing the risk of conflicts or inconsistencies in the data. The system is particularly useful in environments where multiple CAD systems must operate in coordination, such as emergency services or public safety networks, where timely and accurate data sharing is critical.
7. The method of claim 1 , further comprising: updating the second information from the second computer-aided dispatch system; referencing at the hub the mapping of the first data element to the common data element and a mapping of the updated second information to determine whether the mapping of the updated second information comprises the common data element, and providing a translated version of the updated second information to the first computer-aided dispatch where the mapping of the updated second information does not comprise the common data element.
This invention relates to a system for integrating and translating data between different computer-aided dispatch (CAD) systems. The problem addressed is the incompatibility of data formats and structures between CAD systems, which prevents seamless interoperability and real-time information sharing. The solution involves a hub that acts as an intermediary, mapping data elements from a first CAD system to a common data format and then translating them for use in a second CAD system. The method includes updating information from the second CAD system and referencing a mapping stored at the hub. This mapping links data elements from the first CAD system to a common data format and also maps updated information from the second CAD system. The hub checks whether the updated information from the second CAD system includes the common data element. If it does not, the hub provides a translated version of the updated information to the first CAD system, ensuring compatibility. This process allows for dynamic and bidirectional data exchange, resolving discrepancies in data formats between the systems. The invention improves coordination and efficiency in emergency response and dispatch operations by enabling real-time, accurate data sharing across different CAD platforms.
8. The method of claim 1 , further comprising resolving a disconnect of the first computer-aided dispatch system and selectively synchronizing updated information with the first computer-aided dispatch system.
This invention relates to computer-aided dispatch (CAD) systems used in emergency response or fleet management, addressing the challenge of maintaining data consistency when a primary CAD system experiences a disconnect. The system includes a first CAD system that manages dispatch operations and a second CAD system that operates as a backup or redundant system. The second CAD system monitors the status of the first CAD system and detects any disconnections or failures. Upon detecting a disconnect, the second CAD system takes over dispatch operations, ensuring continuous service. When the first CAD system reconnects, the second CAD system selectively synchronizes updated information, such as new dispatch assignments, status changes, or resource allocations, with the first CAD system. This selective synchronization ensures that only relevant and necessary data is transferred, minimizing delays and reducing the risk of data conflicts. The system may also include user interfaces for dispatchers to interact with the CAD systems and may integrate with other communication or tracking systems to provide real-time updates. The invention improves reliability and continuity in dispatch operations by automatically handling disconnections and ensuring seamless data synchronization.
9. A method for dynamically integrating disparate computer-aided dispatch systems over a global computer network, the method comprising: providing a common exchange information hub; communicatively connecting: (i) a first computer-aided dispatch system comprising a first data element and (ii) a second computer-aided dispatch system comprising a second data element to the hub through the global computer network; receiving the first data element and the second data element at the hub; identifying a common data element of the first data element and the second data element, wherein the common data element represents a shared data aspect between the first data element and the second data element; mapping the first data element to the common data element; mapping the second data element to the common data element; maintaining the mapping of the first data element to the common data element at the hub; maintaining the mapping of the second data element to the common data element at the hub; receiving through the network and at the hub a communication from the first computer-aided dispatch system with the first data element being associated with the communication; referencing at the hub the mapping of the first data element to the common data element and the mapping of the second data element to the common data element to link the first data element with the second data element; transforming the first data element into the second data element; and forwarding the communication and the second data element to the second computer-aided dispatch system.
This invention relates to integrating disparate computer-aided dispatch (CAD) systems over a global network. The problem addressed is the lack of interoperability between different CAD systems, which often use incompatible data formats and structures, preventing seamless communication and coordination between emergency response agencies. The solution involves a central hub that acts as an exchange point for data between multiple CAD systems. The hub connects to at least two CAD systems, each containing distinct data elements. The hub receives data from these systems and identifies common data elements that represent shared aspects between them. It then maps the unique data elements from each CAD system to these common elements, maintaining these mappings for future reference. When a communication is received from one CAD system, the hub uses the stored mappings to link the data elements from the first system to those of the second system. The hub then transforms the data from the first system into a format compatible with the second system and forwards the communication along with the transformed data to the second CAD system. This ensures that information can be exchanged accurately and efficiently between systems that would otherwise be incompatible. The approach enables real-time data sharing and coordination across different CAD systems, improving emergency response efficiency.
10. The method of claim 9 , wherein the hub comprises multiple master nodes that comprise peer members of an indexing network, wherein the master nodes comprise clones of each other such that when one master node is made aware of information that master node replicates such information to its peer master nodes, and wherein the master nodes provide an interface to lookup a location of a known data record matching an input indexable criterion.
This invention relates to distributed data indexing systems, specifically addressing the challenge of maintaining consistency and availability in a decentralized indexing network. The system includes a hub comprising multiple master nodes that operate as peer members of an indexing network. These master nodes are clones of each other, ensuring that any information one master node receives is automatically replicated to all peer master nodes. This replication mechanism maintains data consistency across the network. The master nodes also provide an interface that allows users to query the system by inputting an indexable criterion, such as a search term or identifier, and receive the location of a known data record that matches the criterion. The system ensures high availability and fault tolerance by distributing the indexing responsibility across multiple nodes, preventing single points of failure. The peer-based replication ensures that all master nodes remain synchronized, providing a unified view of the indexed data. This approach is particularly useful in large-scale distributed systems where data consistency and quick retrieval are critical.
11. The method of claim 9 , wherein the communication is maintained with the first computer-aided dispatch system when the communication is forwarded to the second computer-aided dispatch system.
This invention relates to computer-aided dispatch (CAD) systems used in emergency response or public safety communications. The problem addressed is ensuring seamless communication continuity when a call or dispatch request is transferred between different CAD systems, such as when jurisdiction boundaries are crossed or when a call is escalated to a higher-level dispatch center. The invention provides a method for maintaining uninterrupted communication with the original CAD system while forwarding the communication to a second CAD system. This ensures that critical information is not lost during the transfer and that all relevant parties remain connected throughout the process. The method involves synchronizing data between the first and second CAD systems, allowing the first system to retain awareness of the communication even after forwarding. This is particularly useful in scenarios where multiple agencies or dispatch centers need to collaborate on a single incident, ensuring that all participants have access to the same information without disruptions. The invention improves coordination, reduces response times, and enhances situational awareness in emergency operations.
12. The method of claim 11 , further comprising assigning a global call identifier to the communication, and wherein the communication is used in conjunction with the global call identifier at both the first and the second computer-aided dispatch systems.
This invention relates to computer-aided dispatch (CAD) systems used in emergency response or coordination, addressing the challenge of managing communications between multiple CAD systems. The method involves facilitating communication between a first CAD system and a second CAD system, where the first CAD system receives a communication from a first user and the second CAD system receives a communication from a second user. The communication is processed to determine a context, such as an emergency type or location, and the context is used to route the communication to the appropriate CAD system. The method also includes assigning a global call identifier to the communication, ensuring that the same identifier is used across both CAD systems. This identifier allows for consistent tracking and coordination of the communication between the systems, improving interoperability and reducing errors in emergency response scenarios. The global call identifier ensures that all relevant parties can reference the same communication, regardless of which CAD system they are using, enhancing situational awareness and response efficiency.
13. The method of claim 9 , further comprising receiving through the network, at the hub, and from the second computer-aided dispatch system an update to the second data element; and referencing at the hub a mapping of the updated second data element to determine whether the mapping of the updated second data element comprises the common data element of the first data element and the second data element.
This invention relates to a system for integrating data between multiple computer-aided dispatch (CAD) systems in a networked environment. The problem addressed is the lack of interoperability between different CAD systems, which often use incompatible data formats, leading to inefficiencies in emergency response coordination. The method involves a hub that facilitates communication between a first CAD system and a second CAD system. The hub receives data elements from each CAD system, where these data elements may represent different but related information, such as incident details or resource availability. The hub maps these data elements to a common data element, allowing the systems to exchange and understand the information despite their differences. When the second CAD system sends an update to its data element, the hub receives this update and checks a mapping to determine if the updated data element corresponds to the common data element shared with the first CAD system. This ensures that changes in one system are accurately reflected in the other, maintaining consistency across the network. The hub may also perform additional processing, such as transforming the data into a compatible format for the receiving system, to further enhance interoperability. This approach enables seamless data synchronization between disparate CAD systems, improving coordination in emergency response scenarios.
14. The method of claim 13 , further comprising not providing the first computer-aided dispatch system with the updated second data element when the hub determines that the mapping of the updated second data element comprises the common data element of the first data element and the second data element.
This invention relates to computer-aided dispatch (CAD) systems and data synchronization in emergency response or dispatch environments. The problem addressed is ensuring accurate and consistent data sharing between multiple CAD systems while preventing redundant or conflicting updates. The method involves a hub that receives and processes data elements from at least two CAD systems. The hub maps data elements from a first CAD system to corresponding data elements in a second CAD system, identifying common data elements between them. When the second CAD system updates a data element, the hub checks whether the updated data element shares a common mapping with a data element from the first CAD system. If a common mapping exists, the hub prevents the updated data element from being sent to the first CAD system, avoiding potential conflicts or redundant updates. This ensures that only necessary and non-conflicting data is propagated between systems, maintaining data integrity in multi-CAD environments. The method may also include validating the updated data element before processing and determining whether the update is relevant to the first CAD system.
15. The method of claim 13 , further comprising providing the first computer-aided dispatch system with the updated second data element when the hub determines that the mapping of the updated second data element comprises the common data element of the first data element and the second data element.
This invention relates to a system for integrating data between multiple computer-aided dispatch (CAD) systems. The problem addressed is the difficulty in synchronizing and mapping data elements between different CAD systems, which often use incompatible data formats or structures. The solution involves a hub that facilitates data exchange by identifying and mapping common data elements between the systems. The method includes receiving a first data element from a first CAD system and a second data element from a second CAD system. The hub analyzes these elements to determine if they share a common data element, such as a unique identifier or a standardized field. If a match is found, the hub updates the second data element and provides the updated version back to the first CAD system. This ensures that both systems maintain consistent and synchronized data. The process may involve transforming the data into a compatible format before transmission. The system may also include a user interface for manual verification or correction of the mappings. The hub acts as an intermediary, ensuring seamless data integration without requiring direct communication between the CAD systems. This approach improves efficiency and accuracy in dispatch operations by reducing manual data reconciliation efforts.
16. The method of claim 9 , further comprising providing a real-time communication channel between the first and second computer-aided dispatches and through the hub.
A system and method for enhancing interoperability between computer-aided dispatch (CAD) systems in emergency response or public safety environments. The technology addresses the challenge of integrating disparate CAD systems, which often operate independently, leading to communication gaps and inefficiencies during critical operations. The invention establishes a centralized hub that facilitates seamless data exchange and coordination between multiple CAD systems. The hub acts as an intermediary, translating and routing information between different CAD platforms, ensuring real-time synchronization of incident data, resource allocation, and response coordination. Additionally, the system provides a real-time communication channel between the CAD systems through the hub, enabling direct and instantaneous communication between dispatchers, first responders, and other stakeholders. This improves situational awareness, reduces response times, and enhances overall operational efficiency in multi-agency or multi-jurisdictional scenarios. The solution is particularly valuable in large-scale emergencies where rapid, coordinated action is essential.
17. The method of claim 16 , wherein the real-time communication channel comprises at least one of: (i) a chat room, (ii) paging, (iii) mapping, and (iv) cellular communication.
This invention relates to real-time communication systems designed to enhance coordination and information sharing among users in dynamic environments, such as emergency response or field operations. The system establishes a real-time communication channel that enables users to exchange critical data, including text messages, location updates, and other relevant information. The communication channel supports multiple modalities, including chat rooms for group discussions, paging for direct messaging, mapping for location tracking, and cellular communication for voice or data transmission. These features allow users to maintain situational awareness and respond efficiently to changing conditions. The system dynamically adjusts communication parameters based on user inputs and environmental factors to ensure reliable and timely information exchange. By integrating these diverse communication methods, the invention improves coordination, reduces response times, and enhances decision-making in high-stakes scenarios. The technology is particularly useful in applications where rapid and accurate information sharing is essential, such as emergency services, military operations, or disaster management.
18. The method of claim 9 , further comprising associating a resource from at least one of the first and second computer-aided dispatch systems with the communication, and providing a depiction of the resource on a map to each of the first and second computer-aided dispatch systems.
This invention relates to computer-aided dispatch (CAD) systems used in emergency response or resource management. The problem addressed is the lack of real-time resource visibility and coordination between multiple CAD systems, which can lead to inefficiencies in dispatching and resource allocation. The method involves integrating at least two CAD systems to enable seamless communication and resource sharing. A communication, such as a dispatch request or status update, is generated by one CAD system and transmitted to the other. The communication may include details like incident location, resource requirements, or status updates. The method further associates a resource, such as an emergency vehicle or personnel, from either CAD system with the communication. This resource is then depicted on a shared map interface accessible by both CAD systems, providing real-time visibility of resource locations and statuses. This integration allows dispatchers from different CAD systems to coordinate more effectively, improving response times and resource utilization. The system ensures that all relevant parties have access to the same information, reducing miscommunication and duplication of efforts.
19. The method of claim 9 , further comprising dynamically identifying a user assigned to the communication and including such user into a communication environment associated with the communication.
This invention relates to communication systems, specifically methods for dynamically managing user participation in communication environments. The problem addressed is the need to efficiently and automatically include relevant users in ongoing communications without manual intervention, improving responsiveness and collaboration. The method involves dynamically identifying a user assigned to a communication, such as an email, message, or call, and automatically including that user in a communication environment associated with the communication. The communication environment may be a virtual meeting space, a shared document, or a collaborative workspace. The identification process may involve analyzing metadata, keywords, or user roles to determine the appropriate participants. Once identified, the user is seamlessly integrated into the communication environment, allowing them to join discussions, access shared resources, or contribute to the ongoing interaction. This automation reduces delays and ensures that all necessary stakeholders are engaged in real-time. The method may also involve tracking user availability or preferences to optimize the inclusion process. The overall goal is to enhance collaboration by dynamically connecting the right users to the right communications at the right time.
20. A system for implementing a method for integrating disparate computer-aided dispatch systems over a global computer network, the system comprising: a processor; an information hub; a first computer-aided dispatch system; and a second computer-aided dispatch system, wherein the first and second computer-aided dispatch systems respectively comprise a first data element and a second data element, wherein the first and second computer-aided dispatch systems are communicatively connected to the information hub through the global computer network, and wherein the information hub is configured to: identify a common data element of the first data element and the second data element, wherein the common data element represents a shared data aspect between the first data element and the second data element; map the first data element to the common data element; map the second data element to the common data element; maintain the mapping of the first data element to the common data element at the hub; maintain the mapping of the second data element to the common data element at the hub; and enable communication between the first and second computer-aided dispatch systems through the hub by transforming first information from the first computer-aided dispatch system having a first definition into second information understood at the second computer-aided dispatch system as having a second definition by: using the mapping of the first data element to the common data element and the mapping of the second data element to the common data element to: transform at the hub the first information to the second information when communicating from the first computer-aided dispatch system to the second computer-aided dispatch system through the hub; and transform at the hub the second information to the first information when communicating from the second computer-aided dispatch system to the first computer-aided dispatch system through the hub.
The system integrates disparate computer-aided dispatch (CAD) systems over a global computer network to enable seamless communication between them. CAD systems are used for coordinating emergency response services, but different systems often use incompatible data formats, making direct communication difficult. This system addresses the problem by providing an information hub that acts as an intermediary, translating data between incompatible CAD systems. The system includes a processor, an information hub, and at least two CAD systems, each with their own data elements. The CAD systems are connected to the hub via the global network. The hub identifies common data elements between the CAD systems, representing shared aspects of the data. It then maps the data elements of each CAD system to these common elements. The hub maintains these mappings and uses them to transform data between the systems. When information is sent from one CAD system to another, the hub converts the data from the sender's format to a format understood by the recipient using the established mappings. This transformation ensures that data is accurately exchanged, even if the systems use different definitions for the same information. The system enables bidirectional communication, allowing data to flow in both directions while preserving its meaning. This integration improves interoperability between emergency response systems, enhancing coordination and efficiency.
21. The system of claim 20 , wherein the hub comprises multiple master nodes that comprise peer members of an indexing network, wherein the master nodes comprise clones of each other such that when one master node is made aware of a piece of data that master node replicates such piece of data to that master node's peer master nodes, and wherein the master nodes provide an interface to lookup a location of a known data record matching an input indexable criterion.
This invention relates to a distributed data indexing system designed to improve data retrieval efficiency and reliability in large-scale networks. The system addresses the challenge of maintaining consistent and accessible data across multiple nodes in a distributed environment, ensuring high availability and fault tolerance. The system includes a hub comprising multiple master nodes that function as peer members of an indexing network. These master nodes are clones of each other, meaning they maintain identical data sets. When one master node becomes aware of a new piece of data, it replicates that data to all other peer master nodes, ensuring data consistency across the network. This replication mechanism enhances reliability by preventing data loss if a single node fails. The master nodes also provide an interface that allows users to search for the location of a known data record by specifying an input indexable criterion. This lookup functionality enables efficient data retrieval, as the system can quickly identify where the requested data is stored within the network. The peer-based architecture ensures that any master node can handle lookup requests, further improving system resilience and performance. By combining data replication with a distributed indexing structure, the system ensures that data remains accessible and consistent, even in the event of node failures or network disruptions. This approach is particularly useful in environments requiring high availability and fault tolerance, such as large-scale distributed databases or cloud storage systems.
22. A system for implementing a method for integrating disparate computer-aided dispatch systems over a global computer network, the system comprising: a memory; an information hub; a first computer-aided dispatch system; and a second computer-aided dispatch system, wherein the first and second computer-aided dispatch systems respectively comprise a first data element and a second data element, wherein the first and second computer-aided dispatch systems are communicatively connected to the information hub through the global computer network, and wherein the information hub is configured to: identify a common data element of the first data element and the second data element, wherein the common data element represents a shared data aspect between the first data element and the second data element; map the first data element to the common data element; map the second data element to the common data element; maintain the mapping of the first data element to the common data element at the hub; maintain the mapping of the second data element to the common data element at the hub; and enable communication between the first and second computer-aided dispatch systems through the hub by transforming first information from the first computer-aided dispatch system having a first definition into second information understood at the second computer-aided dispatch system as having a second definition by: using the mapping of the first data element to the common data element and the mapping of the second data element to the common data element to: transform at the hub the first information to the second information when communicating from the first computer-aided dispatch system to the second computer-aided dispatch system through the hub; and transform at the hub the second information to the first information when communicating from the second computer-aided dispatch system to the first computer-aided dispatch system through the hub.
The system integrates disparate computer-aided dispatch (CAD) systems over a global network to enable interoperability. CAD systems are used for emergency response coordination but often operate on incompatible data formats, preventing seamless communication. This system addresses the problem by providing an information hub that acts as a central intermediary. The hub connects multiple CAD systems, each containing unique data elements, and identifies common data elements shared between them. These common elements represent shared aspects of the data, such as incident types or resource availability. The hub maps each CAD system's data elements to these common elements, maintaining these mappings for ongoing use. When information is transmitted between CAD systems, the hub transforms the data from the sending system's format into a format understood by the receiving system. This transformation uses the established mappings to ensure accurate translation. The system enables bidirectional communication, allowing data to flow seamlessly between CAD systems regardless of their original data definitions. This integration improves coordination across different emergency response agencies by standardizing data exchange.
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June 23, 2020
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